2-Pin Pogo Connector Inquiry
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Yes—2-pin pogo (spring‑loaded) connectors with 2.54 mm (0.100 in) pitch are common. Here are solid sources and example MPNs to start from:
- Mill‑Max (manufacturer)
- Example 2‑pos options: 815-22-002-30-001101, 810-22-002-30-001101
- Manufacturer pages: https://www.mill-max.com/products/spring-loaded
- Preci‑Dip (manufacturer)
- Example 2‑pos options: 811-SS-002-30-002101, 811-S1-002-10-014101
- Catalog: https://precidip.com/wp-content/uploads/2024/10/Full-English.pdf
- Mouser (distributor)
- Preci‑Dip spring‑loaded connectors (2.54 mm, 2‑pos shown in datasheets): https://www.mouser.com/datasheet/2/571/Preci_Dip_01252017_cat_035-1214471.pdf
- Digi‑Key (distributor)
- Spring‑loaded connectors overview, with 2‑pos options: https://www.digikey.com/en/products/filter/rectangular-connectors-spring-loaded/394
If you tell me your preference for mounting style (SMT vs THT) and orientation (vertical vs right‑angle), I can zero in on an exact in‑stock MPN and add it to your project.
Select SMT part
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Through-hole option
Right-angle variant
115 days
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como lo puedo expandir
@copilot como lo puedo expandir
2y
Para expandir su esquema actual con el encabezado de pin vertical de 01x02, 2.54 mm, podría considerar agregar más conectores del mismo tipo (pin header) o puede elegir agregar componentes electrónicos adicionales. Estas decisiones dependen de los requisitos de su proyecto.
Si desea agregar más conectores, simplemente haga clic en "Agregar componente" en la herramienta Flux, busque el mismo tipo de encabezado de pin y colóquelo en el área de diseño.
Si desea agregar componentes electrónicos adicionales, puede seguir estos pasos:
- Haga clic en "Agregar componente".
- Busque el componente deseado.
- Seleccione el componente y haga clic en "Agregar".
- Coloque el componente en su área de diseño.
Además, debe conectar estos componentes utilizando líneas de conexión, que representan las conexiones eléctricas físicas. Para hacer esto:
- Seleccione la herramienta de "trazo".
- Haga clic en el pin de un componente donde desea comenzar la conexión.
- Lleve el cursor al pin del segundo componente al que se debe conectar.
- Haga clic para finalizar la conexión.
Recuerde rotular su diseño (por ejemplo, las líneas de alimentación, tierra y señales data) para que sea más fácil de entender y seguir.
Por favor, especifica más tu pregunta si necesitas una guía detallada o tienes un requisito específico.
2y
Someone is typing...
2
explain this project.
Quiero hacer una compuerta logica Or con un circuito integrado que funcione para un led
1y
@copilot explain this project.
1y
The project description outlines a very basic and initial stage of a circuit design involving two separate pin headers, each with a single pin. These pin headers are commonly used as connectors in electronic projects, allowing for easy attachment and detachment of components or wiring. The pin headers described are intended for through-hole mounting, which means they are designed to be soldered onto a printed circuit board (PCB) through holes drilled into the PCB. The pitch of these pin headers is specified to be 2.54mm, which is a very common spacing, making them compatible with standard breadboards and perfboards.
Here are the key components based on the project description:
Components Summary
- Pin Header 01x02 2.54mm Vertical: This refers to a generic component specification rather than a specific part of the project schematic. Typically, a pin header with 01x02 configuration would have 2 pins in a single row, but the description in the project details lists two separate designators (P1 and P2), each with a single pin described. This might be an error, or it suggests the user's intent to treat each pin as a separate component for a specific design reason not explained in the description.
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Designator: P1
- Pins: 1
- Pin Type: Unspecified
- Designator Prefix: P
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Designator: P2
- Pins: 1
- Pin Type: Unspecified
- Designator Prefix: P
- Designator Prefix, Manufacturer Name, and License are provided, with the license being a Creative Commons Attribution 4.0 International License, indicating the user's openness to share and allow modifications to the project as long as proper credit is given.
- No electrical connections have been made in this project yet. This stage is typically where one would start defining how these components interact with each other or with additional components not yet described.
- The notation might suggest that each pin is considered a separate component (P1 and P2), which is unusual for pin headers that typically come as a single piece with multiple pins. This could imply a customized or specific approach to a design requirement not fully detailed here.
- Since no connections or additional components are mentioned, the intended function or application of these pins within a larger project cannot be determined from the provided information.
This is a very foundational setup, and more information would be needed to understand the intended use, any additional components expected to be part of the circuit, and how these pins are supposed to be connected or used within the project.
1y
Someone is typing...
4
Quiero hacer una compuerta logica Or con un circuito integrado que funcione para...
@copilot Quiero hacer una compuerta logica Or con un circuito integrado que funcione para un led
1y
Para diseñar un circuito que funcione como una compuerta lógica OR y que encienda un LED, puedes usar un circuito integrado (CI) específico que realice esta función, como el 74HC32, que contiene cuatro compuertas OR de dos entradas cada una. Aquí te mostraré cómo conectar un solo LED que se encienda al aplicar un nivel lógico alto (por ejemplo, 5V) a cualquiera de las dos entradas de la compuerta OR.
Lista de componentes necesarios:
- 1 x 74HC32: CI que contiene cuatro compuertas OR de 2 entradas.
- 2 x resistencias: una para limitar la corriente del LED (220Ω es un valor común para 5V) y otra como pull-down para las entradas (10kΩ).
- 1 x LED: cualquier color, asumiendo una caída de voltaje típica de 2V para LEDs rojos.
- 3 x pin headers: para las entradas y la alimentación del circuito.
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Alimentación del 74HC32: conecta la alimentación (5V) al pin de Vcc del 74HC32 y la tierra (GND) al pin de GND.
- Conecta J1:1 (donde J1 es un pin header para la alimentación de 5V) a 74HC32:Vcc.
- Conecta J2:1 (donde J2 es un pin header para GND) a 74HC32:GND.
-
Configuración de la compuerta OR:
- Conecta J3:1 a 74HC32:1A y una resistencia de 10kΩ de 74HC32:1A a J2:1 (GND) para la primera entrada.
- Conecta J3:2 a 74HC32:1B y una resistencia de 10kΩ de 74HC32:1B a J2:1 (GND) para la segunda entrada.
- Estas resistencias sirven como pull-down para asegurarse de que las entradas están en un estado bajo cuando no estén siendo usadas.
-
Conexión del LED:
- Conecta el ánodo (lado largo) del LED a 74HC32:1Y a través de una resistencia de 220Ω para limitar la corriente.
- Conecta el cátodo del LED (lado corto) a J2:1 (GND).
Cuando cualquier entrada de la compuerta OR (1A o 1B) reciba un nivel alto (5V), la salida (1Y) también será alta, lo que permitirá que el LED se encienda. Si ambas entradas están en un nivel bajo (0V), la salida también estará en bajo y el LED permanecerá apagado.
Recuerda ajustar los valores de las resistencias según las especificaciones de tu LED y la fuente de alimentación que estés utilizando. Los valores de 220Ω para el LED y 10kΩ para las resistencias pull-down son puntos de partida comunes.
Espero que esta guía te sea de utilidad. Si tienes alguna consulta o necesitas más detalles acerca de cómo hacer las conexiones, ¡no dudes en preguntar!
1y
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6
P1
P2
Reviews
Electrical Rule Checks
Duplicate Designators
Reports components with identical designators.
No-Connect Violation
Reports no-connect pins that are connected.
Pin-to-Pin Conflicts
Reports incompatible pin connections on the same net based on electrical pin types.
Shorted Components
Reports any 2-pin component with both pins connected to the same net.
Missing Power
Reports power input pins that are not connected to a power source.
Single Pin Nets
Reports nets that have only one pin connected.
Missing Designator
Reports components without a designator.
Design Rule Checks
Overlapping Copper
Reports copper elements that are shorting.
Invalid Layer
Reports nodes that are assigned to a layer that doesn't exist in the layout stackup.
Component Overrides
Reports components that have been modified using the "!important" flag.
Airwires
Reports missing routed traces between pads in a net.
Layers with Multiple Fills
Reports layers that have multiple copper fills of different nets. Make sure the Connected Layers rule value of nets with fills is valid.
Floating Copper
Detect any via, trace or copper fill island that is not connected to any net.
Protected Intrusions
Reports intrusions from objects of other nets into polygons or fills that have the Protected layout rule applied.
Missing Footprints
Reports components that need a footprint but don't have one.
Component Review Checks
Incomplete Project Info
Reports the project when the name or description haven't been modified from the default.
Missing Properties • 3
Missing Terminals
Reports the project when no terminals are present.
Missing Parametric Symbol Properties
Reports terminals that are missing parametric symbol properties (pin group, pin orientation, section).
System Checks
Auto-Layout
BetaReports issues with Auto-Layout if Flux cannot route something or must ignore a configuration.
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Inspect
Pin Header 01x02 2.54mm Vertical
Controls
Properties
Part Type
Connector
Manufacturer Part Number
Designator Prefix
J
Manufacturer Name
Datasheet URL
Availability & Pricing
| Distributor | Qty 1 | |
|---|---|---|
Assets
- PinHeader_1x02_P2.54mm_Vertical.kicad_mod
id=PinHeader_1x02_P2.54mm_Vertical
- pinheader.png
id=pinheader
- PinHeader_1x02_P2.54mm_Vertical.step
id=3D_PinHeader_1x02_P2.54mm_Vertical
Conn_01x02id=default
Footprint
Thumbnail
3d Model
Default
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coitomaster69
copilot
- Diodos: necesitarás dos diodos para las entradas de la compuerta OR. Puedes usar diodos 1N4148, comunes y adecuados para señales lógicas.
- Resistencia (R): para limitar la corriente a través del LED y protegerlo. Supondré que estamos trabajando con un LED estándar y 5V como voltaje de fuente, así que una resistencia de 330Ω podría funcionar bien aquí.
- LED: cualquier LED estándar servirá para indicar la salida de la compuerta OR.
Conexiones-
Entradas de la Compuerta OR (Usando Diodos)
- Primero, necesitas conectar las entradas de tu compuerta OR a los ánodos de los diodos. Esto se hace para que cualquier señal alta (5V) en alguna de las entradas resulte en una salida alta.
- Conecta
- Conecta
-
Salida de la Compuerta OR
- Luego, conecta los cátodos de ambos diodos juntos y a una terminal de la resistencia. Esto combina las señales de los diodos, creando la función OR.
- Conecta
- Conecta
-
Conexión a LED
- La otra terminal de la resistencia se conecta al ánodo del LED (la terminal más larga), y el cátodo del LED (la terminal más corta) se conecta al negativo de tu fuente de alimentación (GND).
- Conecta
- Conecta
-
Fuente de Alimentación
- Asegúrate de que la fuente de alimentación está conectada de manera que suministre 5V (o el voltaje con el que estés trabajando) a las entradas de la compuerta OR cuando sea necesario, y que GND esté correctamente conectado al LED y al lado negativo de tu fuente de alimentación.
Notas finalesP1:1al ánodo del primer diodo (D1).P2:1al ánodo del segundo diodo (D2).D1:CátodoaR1:1.D2:CátodoaR1:1.R1:2alLED:Ánodo.LED:CátodoaGND.